Fuzzy Chemical Reaction Algorithm with Dynamic Adaptation of Parameters

O, David de la; Castillo, Oscar; Astudillo, Leslie; Soria, José Manuel Nieto

doi:10.1007/978-3-319-67137-6_13

Cited by 3 publications

(1 citation statement)

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“…Lofti Zadeh (1965) proposed fuzzy logic and rulesbased procedures as a means to model and capture the human knowledge and deal with uncertainty in the real word. These methods have been applied to ill defined industrial processes, since these methods are usually based on experienced people who usually obtain good results, regardless of whether they receive imprecise information [10][11][12][13][14]23]. The methods have also been applied to Control of a Mobile Robot using Fuzzy Bee Colony Optimization Algorithm [2,8], Particle Swarm [3, 16-18, 21-24, 26, 42-46], Genetic Algorithms [11,15,29,47], Differential evolution [30] and Ant Colony Optimization [25,30,37,41].…”

Section: Introductionmentioning

confidence: 99%

Chemical Reaction Algorithm for Type-2 Fuzzy Control Optimization in Mobile Robots

O¹,

Castillo²,

Soria³

2018

JAMRIS

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In this work the optimization process of the tracking and reactive controllers for a mobile robot are presented. The Chemical Reaction Algorithm (CRA) is used to find the optimal parameter values of the membership functions and rules for the reactive and tracking controllers. In this case, we are using five membership functions in each variable of the fuzzy controllers. The main goal of the reactive controller is aimed at providing the robot with the ability to avoid obstacles in its environment. The tests are performed on a benchmark maze problem, in which the goal is not necessarily to leave the maze, but rather that the robot avoids obstacles, in this case the walls, and penalizing for unwanted trajectories, such as cycles. The tracking controller's goal is for the robot to keep into to a certain path, this in order that the robot can learn to react to unknown environments. The optimization algorithm that was used is based on an abstraction of chemical reactions. To perform the simulation we use the "SimRobot" toolbox, the results of the tests are presented in a detailed fashion, and at the end we are presenting a comparison of results among the CRA, PSO and GA methods.

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